DETERMINATION THE EFFECTS OF DUTY CYCLE AND SWITCHING FREQUENCY ON EFFICIENCY OF BOOST CONVERTER FOR FIXED LOAD APPLICATIONS
Year 2017,
Issue: 1, 69 - 75, 09.11.2017
Enis Baris Bulut
Korhan Cengiz
Abstract
Recent years, power converters have been a significant part of daily
applications such as PV systems, wind turbines, electrical vehicle chargers and
adapters. Due to the arising energy demand and the energy restrictions of the
environment, energy efficiency of power converters become crucial. Energy
efficiency of these converters can be enhanced using appropriate converter
topology, effective modeling and control algorithms. Therefore, in this study,
we aim to model and analyze the power losses of boost converter to determine
best usage interval in terms of duty cycle and switching frequency. The
proposed model is designed by using Simulink and the results in terms of
efficiency and power losses are obtained and analyzed in MATLAB. The results of
this study demonstrate that, appropriate selection of duty cycle and switching
frequency provide lower power losses and thus higher efficiencies.
References
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Ivanovic Z., Blanusa B., Knezic M. (2011), Power loss model for efficiency improvement of boost converter, XXII International Symposium on Information, Communication and Automation Technologies, Sarajevo, Bosnia and Herzegovina
Erickson R. W., Maksimovic D. (2001). Fundamentals of Power Electronics-Second Edition, University of Colorado, Boulder, Publisher: Kluwer Academic Publishers
Rodriguez et al. (2010). Insight Into the Switching Process of Power Mosfets: An Improved Analytical Losses Model, IEEE Transactions on Power Electronics, 25/6, 1626-1640.
Ren Y., Xu M., Zhou J., Lee F. C. (2006). Analytical Loss Model of Power Mosfets, IEEE Transactions on Power Electronics, 21/2, 310-319
Aloisi W., Palumbo G. (2005). Efficiency Model of Boost DC-DC PWM Converters, International Journal of Circuit Theory and Applications, 33, 419-432
Wilson Eberle (2008). Mosfet Current Source Gate Drivers, Switching Loss Modelling and Frequency Dithering Control for MHz Switching Frequency DC-DC Converters, PhD, Queen’s University Kingston, Ontario, Canada
Ivanovic Z., Dokic B., Blanusa B., Knezic M. (2010). Boost Converter Efficiency Optimization in Wind Turbine, 14th International Power Electronics and Motion Control Conference EPE-PEMC, Ohrid, Macedonia
Van den Boosche A., Valchev V. C. (2006), Modelling Ferrite Core Losses in Power Electronics, International Review of Electrical Engineering
Ferroxcube, ETD 49/25/16 ETD Cores and Accessories, Datasheet, Retrieved on July 2017
Transphorm Semiconductors, TPH3206PSB, Datasheet, Retrieved on July 2017
Year 2017,
Issue: 1, 69 - 75, 09.11.2017
Enis Baris Bulut
Korhan Cengiz
References
-
Ivanovic Z., Blanusa B., Knezic M. (2011), Power loss model for efficiency improvement of boost converter, XXII International Symposium on Information, Communication and Automation Technologies, Sarajevo, Bosnia and Herzegovina
Erickson R. W., Maksimovic D. (2001). Fundamentals of Power Electronics-Second Edition, University of Colorado, Boulder, Publisher: Kluwer Academic Publishers
Rodriguez et al. (2010). Insight Into the Switching Process of Power Mosfets: An Improved Analytical Losses Model, IEEE Transactions on Power Electronics, 25/6, 1626-1640.
Ren Y., Xu M., Zhou J., Lee F. C. (2006). Analytical Loss Model of Power Mosfets, IEEE Transactions on Power Electronics, 21/2, 310-319
Aloisi W., Palumbo G. (2005). Efficiency Model of Boost DC-DC PWM Converters, International Journal of Circuit Theory and Applications, 33, 419-432
Wilson Eberle (2008). Mosfet Current Source Gate Drivers, Switching Loss Modelling and Frequency Dithering Control for MHz Switching Frequency DC-DC Converters, PhD, Queen’s University Kingston, Ontario, Canada
Ivanovic Z., Dokic B., Blanusa B., Knezic M. (2010). Boost Converter Efficiency Optimization in Wind Turbine, 14th International Power Electronics and Motion Control Conference EPE-PEMC, Ohrid, Macedonia
Van den Boosche A., Valchev V. C. (2006), Modelling Ferrite Core Losses in Power Electronics, International Review of Electrical Engineering
Ferroxcube, ETD 49/25/16 ETD Cores and Accessories, Datasheet, Retrieved on July 2017
Transphorm Semiconductors, TPH3206PSB, Datasheet, Retrieved on July 2017